Abstract

We demonstrate parabolic single-crystal diamond compound refractive lenses designed for coherent x-ray imaging resilient to extreme thermal and radiation loading expected from next generation light sources. To ensure the preservation of coherence and resilience, the lenses are manufactured from the highest-quality single-crystalline synthetic diamond material grown by a high-pressure high-temperature technique. Picosecond laser milling is applied to machine lenses to parabolic shapes with a ≃1 μm precision and surface roughness. A compound refractive lens comprised of six lenses with a radius of curvature R=200 μm at the vertex of the parabola and a geometrical aperture A=900 μm focuses 10 keV x-ray photons from an undulator source at the Advanced Photon Source facility to a focal spot size of ≃20×90 μm2 with a gain factor of ≃50−100.

Highlights

  • Sergey Terentyev,1 Vladimir Blank,1 Sergey Polyakov,1 Sergey Zholudev,1 Anatoly Snigirev,2 Maxim Polikarpov,2 Tomasz Kolodziej,3 Jun Qian,3 Hua Zhou,3 and Yuri Shvyd’ko3,a)

  • We demonstrate parabolic single-crystal diamond compound refractive lenses designed for coherent x-ray imaging resilient to extreme thermal and radiation loading expected from generation light sources

  • The high degree of coherence, brilliance, and power of the radiation expected from the future x-ray free-electron lasers (XFELs), XFEL oscillators, and diffraction-limited synchrotron radiation sources calls for the development of coherence-preserving optics and for use of new materials that are resilient to extreme thermal and radiation loading

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Summary

Introduction

Sergey Terentyev,1 Vladimir Blank,1 Sergey Polyakov,1 Sergey Zholudev,1 Anatoly Snigirev,2 Maxim Polikarpov,2 Tomasz Kolodziej,3 Jun Qian,3 Hua Zhou,3 and Yuri Shvyd’ko3,a). Parabolic single-crystal diamond lenses for coherent x-ray imaging

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